环塔里木盆地棉花品种杏棉复合栽培特性与遗传多样性分析
详细信息    本馆镜像全文|  推荐本文 |  |   获取CNKI官网全文
摘要
环塔里木盆地是新疆棉花生产的主要产区之一,其独特的地理、气候环境使得杏、棉复合栽培已成为一种重要的农业生产模式,对该地区杏、棉复合栽培条件下棉花品种的特性及遗传多样性进行研究,在南疆杏、棉栽培系统科学评价、棉花品种的装配及南疆棉花生产发展战略决策等方面具有重要的理论和实践意义。本文以南疆广泛应用的杏、棉复合栽培模式(4mX6m)为基础,研究了环塔里木盆地杏、棉复合栽培对棉花品种的生长、生产及纤维品质特性的影响;应用DTOPSIS法对杏、棉复合栽培中不同棉花品种进行了综合评价,并应用关联度分析和通径分析方法,研究杏、棉复合栽培下棉花主要性状与产量的关系;同时应用RAPD分子标记技术,对在南疆环塔里木盆地广泛种植的23个果、棉复合栽培棉花品种进行了遗传多样性分析。获得主要结果如下:
     1杏、棉复合栽培下棉花的株高、LAI、单铃重、单株铃数、有效果枝数、衣分、单位面积子棉产量和皮棉产量相比对照均有不同程度的减少,随着距杏树垂直距离的增加,株高、LAI、单位面积子棉产量和皮棉产量的变化均呈现出一定的偏态分布趋势,其中处理1的值最小,处理10的值最大;经新复极差法显著性测定结果显示,各处理与对照间单株铃数、有效果枝数、单位面积子棉产量和皮棉产量差异极显著;表明杏、棉复合栽培对棉花产量影响很大。
     2在杏、棉复合栽培中,随着距杏树垂直距离的增加,棉花的上半部平均长度、整齐度、比强度、伸长率、反射率和纺纱均匀指数的变化呈现出先增加后减少的偏态分布趋势,而黄度则呈现出先减少后增加的变化趋势;其中处理10的上半部平均长度、整齐度和反射率最大,处理9的比强度、伸长率和纺纱均匀指数最大,黄度最小,而马克隆值处于A级的有处理8、处理10和处理11。与对照相比,所有处理的整齐度和伸长率均低于对照,处理1到处理6的所有测得纤维品质性状均低于对照(黄度相反);表明杏、棉复合栽培对棉花纤维品质的影响很大。
     3 DTOPSIS法对杏、棉复合栽培中不同棉花品种的综合评价表明,在5个参试棉花品种中,最适宜复合栽培的棉花品种是中棉43,而中棉49不适宜杏、棉复合栽培。
     4在杏、棉复合栽培中,棉花主要农艺性状及纤维品质性状的变异系数差异均很大,主要农艺性状的稳定性大小的顺序为:生育期>衣分>叶面积指数>单铃重>有效果枝数>单株铃数>株高>单株现蕾数;主要纤维品质性状稳定性大小的顺序为:整齐度>上半部平均长度>反射率>纺纱均匀指数>比强度>伸长率>马克隆值>黄度。关联度和通径分析表明,主要农艺性状与皮棉产量的关联序依次为:单株铃数>单铃重>有效果枝数>单株现蕾数>衣分>株高>叶面积指数>生育期;纤维品质性状与皮棉产量的关联序依次为:比强度>整齐度>纺纱均匀性指数>反射率>黄度>马克隆值>上半部平均长度>伸长率。整齐度是制约上半部平均长度、伸长率、反射率和纺纱均匀性指数的主导因素,伸长率是制约马克隆值的主导因素。通径分析结果显示,在主要农艺性状中,单株铃数对皮棉产量的综合直接作用最大,而在纤维品质性状中纺纱均匀指数对皮棉产量的综合直接作用最大;
     5从70个随机引物中筛选出27个引物能在供试的23个材料之间扩增出多态性条带,共扩增出DNA条带202条,其中多态性条带136条,占总条带的67.3%;23个试供材料可聚为2大类5亚类;供试的23个复合栽培棉花品种之间的平均成对相似系数为0.665,成对相似系数小于0.5的品种对仅占总数的6.7%;表明环塔里木盆地果、棉复合栽培棉花品种间的遗传基础狭窄,遗传多样性总体水平较低。
Tarim Basin was one of the main areas of planting cotton in Xinjiang, in which the apricot-cotton intercropping had been an important cultivation mode because of its unique environment of geography and climate. The characteristics and genetic diversity of the cotton varieties planted in this mode in Tarim Basin were studied in this paper, which played an important theoretical and practical significance in evaluating cultivation system, selecting cotton varieties and making strategic decision of cotton production in south Xinjiang. In this paper, the effect of apricot-cotton intercropping on the characteristics of growth, production and fiber quality of cotton variety were studied on the basis of the apricot-cotton intercropping system (4mX6m) widely used in south Xinjiang; DTOPSIS method was used to evaluate cotton varieties in apricot-cotton intercropping system, and the relational grade analysis and restoring menstrual analysis were used to study the relation between main characters and yield; RAPD markers was used to assess the genetic diversity of 23 cotton varieties of the intercropping in the Tarim Basin. The main results were as follows:
     1 The height, LAI, boll weight, boll per plant, branch number, lint percentage, seed cotton yield and lint yield were lower than CK in the apricot-cotton intercropping system, in which the trends of changes were partial distribution tendency with the increase of vertical distance from tree, and treatment1 was lowest, treatment10 was largest. The results of new multiple range method showed that the differences of boll number per plant, branch number, seed cotton yield and lint yield between all treatments and CK were extremely significant, which showed the intercropping of apricot and cotton had great effect on cotton yield.
     2 With the increase of vertical distance from the apricot, the trends of change of fiber length, uniformity, strength, elongation, reflectivity and CSP were partial distribution tendency in the apricot-cotton intercropping system, and the yellowness was opposite; The fiber length, uniformity and reflectivity were largest in treatment10, strength, elongation and CSP were largest and yellowness was lowest in treatment9, M value was at A-level in treatment8, 10 and 11. Compared with the control, the uniformity and elongation in all treatment was lower than CK, and all fiber quality traits measured in treatment1-6 were lower than CK (yellowness contrary), the results showed intercropping of apricot and cotton had great effect on cotton fiber quality.
     3 DTOPSIS method was used to evaluate cotton varieties in apricot-cotton intercropping system which showed among the five cotton varieties tested, Zhongmian43 was the most suitable cultivars and Zhongmian49 was not appropriate to plant in the apricot-cotton intercropping system.
     4 In the apricot-cotton intercropping system, the differences of coefficient of variation among cotton agronomic and fiber quality characters were significant, and the order of stability of agronomic and fiber quality characters were: growth period> lint percentage> LAI> boll weight> branch number> boll per plant> height> bud number, and uniformity> fiber length> reflectivity> CSP> strength> elongation> M value> yellowness. The relational grade analysis and restoring menstrual analysis showed the correlation sequence between agronomic characters and lint yield was: boll per plant> boll weight> branch number> bud number> lint percentage> height> LAI> growth period, which between fiber quality characters and lint yield was: strength> uniformity> CSP> reflectivity> yellowness> M value> fiber length> elongation. The uniformity was a leading factor that affected fiber length, elongation, reflectivity and CSP, and elongation was a leading factor that affected M value. Boll per plant and strength played the most comprehensive and direct role in the lint yield.
     5 The result showed that a total of 70 arbitrary primers were screened using RAPD markers with the 23 cotton species and finally 27 primers which could produce steady polymorphism were obtained. 136 polymorphic bands were amplified and the polymorphic rate was 67.3%; Cluster analysis revealed that these 23 cotton species could be divided into 2 classes and 5 subclasses; The mean similarity among 23 cotton varieties of the intercropping was 0.665, which less than 0.50 was only 6.7%, which showed there was a low level of genetic diversity among these cotton varieties of the intercropping in the Tarim Basin.
引文
别墅,孔繁玲,周有耀,张光梅,张群远,王孝纲. 2001.中国3大主产棉区棉花品种遗传多样性的RAPD及其与农艺性状关系的研究.中国农业科学,34(6): 597~603
    晁海,张大海,徐林,廖康. 2007.杏棉间作系统小气候水平分布特征研究.新疆农业大学学报,30(1): 35~39
    曹荣祥,戎新祥,庞廷峰,童晓利. 1999. DTOPSIS法在农作物品种稳定性综合评价上的应用初探.南京农专学报,15(4): 20~24
    陈荣江,王清连,朱明哲. 2007.棉花产量性状与纤维品质性状的关联度及典型相关分析.河南农业科学,(5): 43~46
    陈荣江,朱明哲,孙长法. 2007.不同生态环境对棉花产量及产量构成因素的影响.安徽农业科学,35(5): 1315~1316
    陈王廷. 1987.决策分析.北京:科学出版社: 46
    陈兴武,雷钧杰,赵奇,青廉. 2007.杏麦间作复合群体内主要农业气象因素变化特点初探.新疆农业科学,44(6): 775~778
    单世华,孙学振,周治国,施培. 2000.温度对棉纤维品质性状的影响.华北农学报,15(4): 120~125
    董文召,汤丰收. 1999.利用DTOPSIS法综合评估花生新品种.花生科技,(2): 24~27
    范玲. 2004.新疆棉花栽培种遗传多样性分析.[硕士学位论文].乌鲁木齐:新疆农业大学
    樊巍,卢琦,高喜荣. 1999.果农复合系统根系分布格局与生长动态研究.生态学报,19(6): 860~863
    冯复全,吕双俊,谢德意,王付欣. 2004.陆地棉杂交种皮棉产量与相关性状间的关联度分析.中国棉花,31(1): 16~18
    冯克云. 2009.不同灌水量和施钾水平对棉花产量及其构成因素的影响.干旱地区农业研究,27(6): 44~49
    裴保华,贾渝彬,王文全,袁玉欣,张振江. 1998.杨农间作田的光强和土壤水分状况及其对农作物的影响.河北农业大学学报,21(2): 28~32
    高秀琴,兰进好,林琪,穆平. 2008.部分旱地小麦品种(系)遗传多样性的SSR分析.麦类作物学报,28(4): 577~581
    高志千,周开亚. 1998.中华绒螯蟹遗传变异的RAPD分析.生物多样性,6(3): 186~190
    勾玲.2001.新疆棉区棉花铃库特征的研究. [硕士学位论文].杨凌:西北农林科技大学
    郭海江,王跃进,张剑侠,潘学军,唐冬梅,田莉莉. 2005.葡萄抗病无核胚挽救育种及分子标记辅助选择.西北植物学报,25(12): 2395~2401
    郭旺珍,张天真,潘家驹,何金龙. 1996.我国棉花主栽品种的RAPD指纹图谱分析.农业生物技术学报,4(2): 229~234
    郭旺珍,张天真,潘家驹,王心宇等. 1997.我国陆地棉品种的遗传多样性研究初报.棉花学报,9(5): 242~247
    贺明荣,冷寿慈,李增嘉,张明亮. 1994.粮果间作模式的资源利用和管理.生态学杂志,13(6): 7~10
    黄会明,陈宁,严小明,赵匀. 2009.应用AHP与TOPSIS法评价高职学生综合素质.职业技术教育,30(13): 46~49
    黄乐珊,孙泽昭. 2006.浅谈棉花产业在新疆区域经济中的地位.新疆农业职业技术学院学报,3(1): 60~63
    胡升华,邹新. 2008.建设工程项目评标中TOPSIS综合评估法的应用.山西建筑,34(1): 256~257
    胡守林,万素梅,王汉全. 2002.南疆棉区应用DTOPSIS法综合评价棉花新品种的初步探索.棉花学报,14(1): 41~43
    季昌好,杨林. 1999. DTOPSIS法在小麦品种综合评估中的应用研究.安徽农业科学,27(4):318~320
    吉恒莹,李磐. 2008.不同灌溉量对长绒棉产量的影响.干旱区研究,25(5): 695~699
    蒋建平. 1990.农林业系统工程与农桐间作的结构模式.世界林业研究,3(1): 32~38
    蒋文伟,牛生明,侯正年. 2000.平原农区果农间作种植模式研究.新疆农业科学,(6):243~247
    蒋跃林,严平,宛志沪,昂朝东. 1999.林麦间作的光照状况及对小麦产量的影响.安徽农学通报,5(4): 26~28
    姜伟,陆建农. 2007.棉花自交系农艺性状的遗传相关性和通径分析.新疆农业科学,44(1): 106~108
    景建洲,张勇,李东亮,邢良. 2006.利用RAPD分子标记分析玉米种质遗传多样性.中国农学通报,12(12): 405~408
    李爱莲,蔡以纯. 1990.棉花若干性状对产量形成作用.棉花学报,2(1): 67~74
    李保军. 2007.不同年份间中长绒棉纤维品质的变异分析.河北农业科学,11(3): 8~10
    李保军,杨宝新. 2007.土壤肥力差异对中长绒棉纤维品质的影响.河北农业科学,11(2): 59~60
    李芳东,傅太立,王保平. 2000.桐麦间作系统辐射光谱成分变化规律的研究.生态学报,20(1): 109~117
    李景龙,彭凡嘉,张志刚,钟吉萍. 2004.不同采摘时间及密度对棉纤维品质的影响.湖南农业科学,(6): 27~31
    李文华,赖世登. 1994.中国农林复合经营.北京:科学出版社: 1~28
    李肇齐. 1991.农林系统经济评价方法的探讨.世界林业研究,4(2): 75~80
    李正才. 1998.杨粮间作新栽培模式对小麦产量及质量影响的评价.林业科学研究,11(6): 629~634
    刘宏伟,刘秉华,张改生,王振华. 2005. RAPD分子标记与小麦杂种优势相关性研究.麦类作物学报,25(6): 1~5
    刘辉. 2001.应用DTOPSIS法对棉花新品种综合评估初探.中国棉花,28(8): 13~15
    刘明,王继华,王同昌. 2003. DNA分子标记技术.东北林业大学学报,31(6):65~67
    刘文欣,孔繁玲,郭志丽,张群远,彭惠茹,付小琼,杨付新. 2003.建国以来我国棉花品种遗传基础的分子标记分析.遗传学报,30(6): 560~570
    刘延杰. 1996.寒地果农间作小气候特点初探.生态农业研究,4(2): 69~72
    卢琦,阳含熙,慈龙骏,竺肇华,吴运英,景元书. 1997.农桐间作系统辐射传输对农作物产量和品质的影响.生态学报,17(1): 36~44
    卢琦,慈龙骏. 1996.农用林业研究的回顾与展望.世界林业研究,(2): 39~47
    卢为国,李卫东,梁慧珍,许景菊. 1998. DTOPSIS综合评价大豆新品种的初步探讨.中国油料作物学报,20(3): 22~26
    罗巨海,张勇,青霞,何海芬. 2004.种植密度对棉花生育动态及产量的影响.新疆农业大学学报,27(增刊): 58~61.
    李玉芳,李景龙,杨春安. 2009.不同栽培密度对棉花产量及经济性状的影响.江西棉花,31(5):31~33
    马友鑫. 1994.胶茶人工群落胶带内增热效应的研究.生态学报,14(1): 9~15
    马宗斌,李伶俐,朱伟,闫旭霞,李志敏. 2007.施钾对不同基因型棉花光合特性及产量和品质的影响.植物营养与肥料学报,13(6): 1129~1134.
    孟庆华,段友臣. 2004.桃麦间作复合群体中桃树对小麦生长发育的影响.山东农业科学,(2): 31~33
    沈浩,刘登义. 2001.遗传多样性概述.生物学杂志,18(3): 5~8
    宋国立,崔荣霞,王坤波,郭立平,黎绍惠,王春英,张香娣. 1998.改良CTAB法快速提取棉花DNA.棉花学报,10(5): 273~275
    宋国立,崔荣霞,王坤波,黎绍惠,张金发,郭介华,张家明. 1999.澳洲棉遗传多样性的RAPD分析.棉花学报,11(2): 65~69
    孙本普,李秀云,王勇,张宝民,史维泽,马宪芬. 1997.麦套春棉对棉花生态环境及生长影响的研究.生态学报,17(4): 426~435
    孙东磊,梁钰,李存东,耿世明,杨丽娜,李春强,杨永胜. 2009.气象因子对棉花纤维品质的影响.气象与环境学报,25(2): 68~72
    孙友位,李明顺,张德贵,肖木辑,谢振江,李新海,谢传晓,郝转芳,张世煌. 2007.利用SSR标记研究85个玉米自交系的遗传多样性.玉米科学,15(6): 19~26
    汪伟,赵卫国,张林,刘利,潘一乐. 2006. DNA分子标记在植物上的应用进展.安徽农学通报,12(7): 39~41
    王庆材,孙学振,宋宪亮,郭英. 2006.不同棉铃发育时期遮荫对棉纤维品质性状的影响.作物学报,32(5): 671~675
    王晓梅,宋文芹,李秀兰,陈瑞阳. 1998.用RAPD技术检测野生鲫鱼和四个金鱼代表品种的基因组DNA多态性.遗传,20(5): 7~11
    王心宇,郭旺珍,张天真,潘家驹. 1997.我国短季棉品种的RAPD指纹图谱分析.作物学报,23(6): 668~676
    卫春,陈建群,张鹏飞,张闲,陈岗. 1999.复合农林系统中水杉他感作用的生物测定.南京林业大学学报,23(4): 85~88
    魏亚凤,江银荣,潘宝国. 2002.应用DTOPSIS法综合评价大麦新品种的初步研究.大麦科学,4: 20~22
    吴玲,王小丹,刘玉梅,易聪. 2009.应用加权TOPSIS法综合评价某院医疗质量的报告.现代生物医学进展,9(8): 1519~1520
    谢京湘,于汝元,胡涌. 1998.农林复合生态系统研究概述.北京林业大学学报,10(1): 104~108
    熊文愈,薛建辉. 1991.混农林业:一条发展林业的有效途径.世界林业研究,(2):27~30
    许波,王成业,张海申,王友华,李栋业. 2004. DTOPSIS法综合评价玉米新品种的研究.安徽农业科学,32(5): 872~874
    徐立华,何循宏,杨德银,王阶祥,陈建平. 2003.基因型和生态条件对棉花纤维品质的影响.江西棉花,25(4):23~26
    徐秋华,张献龙,聂以春,冯纯大. 2002.我国棉花抗枯萎病品种的遗传多样性分析.中国农业科学,35(3): 272~276
    宣云,赵伟,宋丰顺,易成新,倪大虎,李莉,杨剑波. 2007.利用SSR标记分析部分粳稻品种的遗传多样性.核农学报,21(3): 217~220
    薛晓萍,陈兵林,周治国,王友华,杨保平. 2007.栽培方式对棉花生长、产量和品质的影响.棉花学报,19(6): 440~445
    杨波,龚鹏,车玉红,张平,徐叶挺,杨磊. 2009.扁桃棉花间作对棉花产量的影响.中国农学通报,25(17): 93~97
    杨伯祥. 1995.不同栽培环境棉纤维品质的变化.中国棉花,22(7): 17~18
    杨涛,杨明超. 2003. DTOPSIS法在南疆陆地棉品种综合评价中的应用.新疆农业科学,40(5): 273~275
    杨修. 1996.农林复合经营在农村可持续发展中的地位和作用.农村生态环境,12(1): 37~41
    姚兴涛. 1990.区域城乡社会经济协调发展系统研究[硕士学位论文].郑州:河南农业大学
    尹景本,薛春善,王盈. 2008.应用灰色关联度分析棉花的产量与品质.安徽农业科学,36(13): 5245~5246,5253
    余隆新,唐仕芳,王少华,霍红,陈光琬,别墅. 1993.湖北省棉纤维品质生态区划及研究.棉花学报,5(2): 15~20
    于霁雯,喻树迅,王武,张献龙,聂以春,范术丽,宋美珍. 2006.应用RAPD对短季棉品种遗传多样性的初步评价.棉花学报,18(3): 186~189
    于希志,廖新宇,张加延. 1998.新疆杏的资源特点与开发利用前景-新疆杏资源考察报告.落叶果树,(增刊): 60~62
    袁玉欣,魏宏侠,马荣泽,裴保华,贾玉彬,王颖. 2001.杨粮间作系统农作物产量研究.河北林果研究,16(1): 7~13
    袁玉欣,裴保华. 1998.国外农林间作研究进展.世界林业研究,5: 26~31
    张斌,张桃林. 1997.低丘红壤区农林间作系统的水分生态特征及生产力.生态学杂志,16(4): 1~5.
    张均营,吴炳奇,刘亚民,孟平,辛学兵. 1995.农林复合生态系统中林木对农作物的影响.河北林业科技,9(3): 27~35
    张丽娟,熊宗伟,陈兵林,薛晓萍,周治国. 2006.气候条件变化对棉纤维品质的影响.自然灾害学报,15(4): 79~82
    张志刚,曾潜,杨晓萍,曾昭云. 2003.不同生态点对棉株产量构成因素综合评价的研究.分子植物育种,1(5/6): 697~700
    张志刚,李育强,杨晓萍,肖才升,曾昭云. 2004.不同生态点对棉株纤维品质综合评价的研究.分子植物育种,2(2): 253~257
    赵光磊,朱红菊,刘春惊,陈瑞萍,曹春波,谭永军,陈耀锋. 2010.环塔里木盆地果棉间作棉花品种遗传多样性分析.西北农林科技大学学报(自然科学版),38(3): 113~118
    赵兴征,卢剑波. 2004.农林系统研究进展.生态学杂志,23(2): 127~132
    赵姝华,张波. 1999. RAPD标记技术的实用性及稳定性探讨.国外农学-杂粮作物,19(4): 13~15
    周关印,杨付新,付小琼. 1996.长江流域气候差异对棉花产量和纤维品质的影响.中国棉花,23(10): 15~18
    周桂生,章祥玲,封超年,张网定,周青,于建平. 2007.不同纬向区域条件下高品质陆地棉纤维品质的特点.棉花学报,19(1):23~27
    周桂生,封超年,周青,李兆勇,顾魏菊,杨万玉,肖苏林. 2006.不同栽培方式对高品质棉花生长发育·产量和纤维品质的影响.安徽农业科学,34(1): 62~64
    周延清,田苗苗,鲍丹,苑保军,杨青春,方思霞,牛敬媛,李敏,景建州. 2006.河南栽培大豆的RAPD品种鉴定和聚类分析.华北农学报,21(2): 37~41
    朱四元,陈金湘,刘爱玉,李瑞莲,严跃文,唐海明. 2006.用SSR标记对不同类型抗虫棉品种的遗传多样性分析.湖南农业大学学报(自然科学版),32(5): 469~472
    左开井,孙济中,张金发,聂以春,刘金兰. 2000.用RAPD标记评估我国棉花品种遗传多样性.遗传学报,27(9): 817~823
    Bradow J M, Johnson R M, Bauer P J. 1999. Pre-harvest spatial and temporal variability in short fiber content in relation to processing success. Proc Beltwide Cotton Conf, 716~718
    Brubaker C L, Wendel J F. 1994. Reevaluating the origin of domesticated cotton using nuclear restriction fragment length polymorphisms (RFLP). American journal of botany, 81(10): 1309~1326
    Danforth D M, Cochran J, Bernhardt. 1990. An economic analysis of lint weight and fiber properties by fruiting position. Beltwide Cotton National Cotton Council, 412~421
    Echt C S, Erdahl L A, Mccoy T J. 1992. Genetic segregation of random amplified polymorphic DNA in diploid cultivated alfalfa. Genome, 35: 84~87
    Iqbal M J, Aziz N, Saeed N A, Zafar Y, Malik K A. 1997. Genetic diversity evaluation of some elite cotton varieties by RAPD analysis. Theoretical and Applied Genetics, 94(1): 139~144
    YADAV J P, SHARMA K K, KHANNA P. 1993. Effect of Acacia nilotica on mustard crop. Agroforestry Systems, 21: 91~98
    Kasperbauerm J. 1994. Cotton plant size and fiber development responses to FR/R ration reflected from the soil surface. Physiol Plant, 91: 317~321
    Lundgren B O. 1990. ICRAF into 1990s. Agroforestry Today, 2(4): 14~16
    Mccarty W. 1989. A brief view of cotton growth and development. Mississippi State: Mississippi State University: 115~124.
    KHYBRI M L., GUPTA R K, SEWA RAM. 1992. Crop yield of rice and wheat grown in rotation as intercrops with three tree species in the outer hills of western Himalaya. Agroforestry Systems, 17: 193~204
    Monteith J L. 1991. Microclimatic interaction in agroforestry systems. For Ecol Manage, 45: 31~44
    Multani D S, Lyon B R. 1995. Genetic fingerprinting of Australian cotton cultivars with RAPD markers. Genome, 38: 1005~1008
    Nair, P K R. 1985. Classification of agroforestry system. Agroforestry Systems, 3(2): 383~394
    Pettigrew W T. 1995. Source-sink manipulation effects on fiber quality. Agron J, 87: 947~952
    Plotsky, Y. 1995. Genetic characterization of highly inbred chicken lines by two DNA methods: DNA
    fingerprinting and polymerase chain reaction using arbitrary primers. Animal Genetics, 26: 163~170
    Reinisch A J, Dong J M, Brubaker C L. 1994. A detailed RFLP map of cotton, Gossypium hirsutum×Gossypium barbadense: chromosome organization and evolution in a disomic polyploid genome. Genetics, 138(3): 829~84
    Rippin J P. 1994. Alley cropping and mulching with Erythrina poeppigiana and Gliricidia sepium effects on maize/weed competition. Agroforestry Systems, 25: 119~134
    Salazar A. 1993. Crop-tree interaction in alley cropping system on alluvisl soil of the Upper 5: Amazon Basin. Agroforestry systems, 22: 67~82
    Sasser P, Shane J L. 1996. Crop quality-a decade of improvement. Proc Belt wide Cotton Conf, 9~12
    Sequeira R A, Cochran M, Elzik K M. 1994. Iclusion of plant structure and fiber quality into a distributed delay cotton model to improve management and optimize profit. Ecol Modeling, 71: 161~186
    Smith E J. 1996. Use of random amplified polymorphic DNA markers for the genetic analysis of relatedness and diversity in chickens and turkeys. Poultry Science, 75: 579~584
    Tar’an B, Zhang C, Warkentin T, Tullu A, Vandenberg. 2005. A Genetic diversity among varieties and wild species accessions of pea (Pisum sativum L.) based on molecular markers, and morphological and physiological characters. Genome, 48: 257~272
    Tatineni V, Cantrell R G, Davis D D. 1996. Genetic diversity in elite cotton germplasm determined by morphological characteristics and RAPDs. Crop Science, 36(1): 186~192
    Tinker N A, Fortin M G, Mather D E. 1993. Random amplified polymorphic DNA and pedigree relationships in spring barley. TAG, 85: 976~984
    WILLIAMS J G K, DUBELIK A R, LIVAK K J. 1990. DNA polymorphisms amplified by arbitrary primers are useful as genetic markers. Nucleic Acids Res, 18: 6531~6535
    WELSH J, MCCL ELLAND M. 1990. Fingerprinting genomes using PCR with arbitrary primers. Nucleic Acids Res, 18: 7213~7219
    Vroh B I, Jardin P D, Mergeai G. 1997. Optimization and application of RAPD in a recurrent selection programmer of cotton. BASE: Biotechnology, Agronomy, society at Environment, 1(2): 142~150

© 2004-2018 中国地质图书馆版权所有 京ICP备05064691号 京公网安备11010802017129号

地址:北京市海淀区学院路29号 邮编:100083

电话:办公室:(+86 10)66554848;文献借阅、咨询服务、科技查新:66554700